Operating System for the Physical World

ASSEMBLE
DISASSEMBLE
EVERYTHING.

From atoms to continents — 4DLAB accelerates the creation and repair of physical systems using physics-based AI at every scale of matter.

~0.1
Nanometer precision
100s km
Giga scale reach
4D
Physics + Time
Assemblable states
Assembly Planning Force Feedback Datasets Disassembly Simulation CAD Intelligence Magnetic Manipulation Foundational AI Models Atomic Precision Physics-Based Robotics Assembly Planning Force Feedback Datasets Disassembly Simulation CAD Intelligence Magnetic Manipulation Foundational AI Models Atomic Precision Physics-Based Robotics

Everything exists in states of assembly.

Viruses assemble to cause disease. Proteins disassemble to cure it. Wars depend on the state of materials. Innovation depends on atomic arrangement. 4DLAB is the OS that studies and controls these transitions.

By studying assemblies and disassemblies in matter using datasets, simulations, AI and accelerated computing, 4DLAB enables creation or repair of anything — anywhere — with precision spanning 14 orders of magnitude.

From a graphene sheet assembled via Faraday lithography to continental-scale infrastructure planning — the physics is the same. Only the scale changes.

Human Biology Industrial Manufacturing Nanoelectronics Structural Engineering Scientific Research Defense Systems Space Assembly Drug Discovery

JUAKALI

A physics-based data pipeline automating assembly planning. Upload CAD. Get high-fidelity force datasets. Train the next generation of manipulation AI.

// pipeline_flow.exe
01
CAD Upload
Engineers upload assembled mechanical CAD files via web GUI to remote cloud infrastructure. Unstructured geometry accepted.
INPUT
02
Physics Simulation
Automated disassembly of fittings, fasteners, and joints using real physics — torque, friction, contact forces. No scripting required.
SIM
03
Dataset Generation
Structured cm/mm precision datasets with force feedback, 6-DOF trajectories and contact maps. Ready for model training.
OUTPUT
04
AI Model Training
Foundational models for manipulation — compatible with systems like Google Intrinsic Flow State. Reduces time, cost and errors.
AI
🧲
Magnetic Field Assembly
Shape electromagnetic fields to enable contactless pick, move, place, insert and fasten — no robot arm contact required. Think Swiss watch parts assembling inside a magnetic coil array.
Force-Controlled Precision
Generates force, torque and friction data that VLA models currently lack. Enables contact-rich manipulation in tight, narrow spaces where conventional arms fail.
🔬
Nano-Scale Fabrication
Faraday lithography for joining nanoparticles into graphene sheets and processors. The same pipeline extends from mechanical assemblies to molecular manufacturing.
📦
Open Dataset API
Robot datasets with force feedback made accessible to engineers, developers and researchers through a structured, versioned API. No proprietary hardware lock-in.

The VLA Gap

Current deep tech robotics startups use Vision-Language-Action models that see and reason about geometry. They avoid collisions well. But they lack the physics to manipulate.

Current VLA Systems
See. Reason. Avoid.
  • Teleported human demonstrations for training data
  • Geometry-aware collision avoidance
  • Pick, move, place in open spaces
  • No force, torque or friction generation
  • Fails in tight and narrow contact-rich spaces
  • Limited ability to insert or fasten components
Juakali + 4DLAB
Feel. Simulate. Build.
  • Physics-based synthetic datasets at scale
  • Full force, torque and friction data generation
  • Contact-rich manipulation in constrained spaces
  • Contactless magnetic assembly without physical touch
  • From macro mechanical to atomic-scale fabrication
  • Foundational model training for manipulation AI

Any Scale. Any Domain.

The same assembly/disassembly physics that governs viral proteins also governs satellite deployment. 4DLAB operates across all of them.

⚛️
Atomic & Molecular
Graphene synthesis, nanoparticle assembly, protein folding intervention, drug molecule design via precise electromagnetic manipulation.
🔬
Nano-Fabrication
Semiconductor lithography, processor manufacturing, biosensor construction and MEMS device assembly at sub-micron tolerances.
Precision Mechanics
Swiss watch movement assembly, surgical instrument fabrication, aerospace fastener insertion in inaccessible cavities.
🤖
Industrial Robotics
Factory automation, quality assurance, repair robotics and reconfigurable assembly lines trained on Juakali physics datasets.
🏗️
Construction & Infra
Autonomous structural assembly, disaster repair, modular architecture deployment and infrastructure disassembly for recycling.
🌍
Giga-Scale Systems
Planetary resource management, orbital assembly, tectonic-scale geological modeling and strategic materials logistics.
// Operating range: 0.1nm → 100s km
0.1 nm · Atomic 1 mm · Mechanical 1 m · Human 100 km · Planetary
BUILD THE FUTURE
OF MATTER.

Request early access to Juakali, collaborate on foundational AI datasets, or partner with 4DLAB to bring physics-based intelligence to your assembly challenges.